TimKamsma

PhD candidate Theoretical Physics & Mathematics at Utrecht University.

[Physical Review Research @PhysRevResearch]

Chemically regulated conical channel synapse for neuromorphic and sensing applications, T. M. Kamsma, M. S. Klop, W. Q. Boon, C. Spitoni, B. Rueckauer, and R. van Roij #Neuroscience #SoftMatter https://t.co/U9aGgRmKDN

[PNASNews @PNASNews]

Researchers unveil an aqueous memristor mimicking the brain’s synaptic plasticity, representing a considerable step toward brain-inspired computing devices.

In @physorg_com: https://t.co/v0J9tXI93P

In PNAS: https://t.co/qrnXxJiBrq

[Jungyul Park @sortpark]

Brain-inspired computing with fluidic iontronic nanochannels | PNAS https://t.co/dDt2MdmgnP

[Neuromorphic Computing and Engineering @IOPneuromorphic]

Part of https://t.co/sQwqKLix9O, @TimKamsma, @RossingElse and colleagues at @UUBeta (@UniUtrecht) investigate fluidic advanced neuronal-like spiking, supporting the exploration of aqueous iontronics as an interesting platform for neuromorphic circuits, in https://t.co/olVdLQ33aV

[Faculty of Science, Utrecht University @UUBeta]

🧠 What if we could build computers that use energy as efficiently as our own brains? PhD student @TimKamsma studies #neuromorphiccomputing and talks about his research in the latest edition of the @Wetenschap podcast Kennis & Co (in Dutch). https://t.co/EWu2YNmmRW

[NTR Wetenschap @Wetenschap]

Luister de nieuwe aflevering van Kennis & co. Een met water en zout gebouwde computer zou weleens energiezuiniger kunnen zijn dan huidige computers. @TimKamsma van de @UniUtrecht die met deze uitdaging pioniert spreekt met @Jopinie en @BouweVanStraten.
https://t.co/NGJWvQtyQ5

[Faculty of Science, Utrecht University @UUBeta]

Simulating the brain: young Utrecht researcher theoretically shows that neuronal spiking can emerge from artificial fluidic circuits. #neuromorphiccomputing Published today in @PhysRevLett @sUUstainability https://t.co/VCOmGo7c1T